Definition & Meaning | English word COEVOLUTION


COEVOLUTION

Definitions of COEVOLUTION

  1. (ecology, evolutionary theory) The evolution of organisms of two or more species in which each adapts to changes in the other.

Number of letters

11

Is palindrome

No

22
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COE
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LU
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OE
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TI

4

1

6

CE
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Examples of Using COEVOLUTION in a Sentence

  • While Cavalli-Sforza is best known for his work in genetics, he also, in collaboration with Marcus Feldman and others, initiated the sub-discipline of cultural anthropology known alternatively as coevolution, gene-culture coevolution, cultural transmission theory or dual inheritance theory.
  • Ecological economics, bioeconomics, ecolonomy, eco-economics, or ecol-econ is both a transdisciplinary and an interdisciplinary field of academic research addressing the interdependence and coevolution of human economies and natural ecosystems, both intertemporally and spatially.
  • Raven suggested how coevolution between plants and butterflies may have contributed to the diversification of species in both groups.
  • As a result, coevolution of herbivores and their host plants required development of the physiological capability to detoxify or tolerate poisons.
  • Passiflora vines and Dryas iulia (among other heliconian butterflies) have demonstrated evidence of coevolution, in which the plants attempted to stop their destruction from larval feeding by the butterflies, while the butterflies tried to gain better survival for their eggs.
  • Phyllanthus are of note in the fields of pollination biology and coevolution because some but not all species in the genus have a specialized mutualism with moths in the genus Epicephala (leafflower moths), in which the moths actively pollinate the flowers.
  • William Cade has done research in evolution of animal behavior, insect reproductive behavior, acoustic signals in cricket, cockroach mating behavior, and parasite-prey coevolution.
  • Breynia are of special note in the fields of pollination biology and coevolution because they have a specialized mutualism with moths in the genus Epicephala (leafflower moths), in which the moths actively pollinate the flowers—thereby ensuring that the tree may produce viable seeds—but also lay eggs in the flowers' ovaries or in the space between the tepals and the carpel walls, from where their larvae consume a subset of the developing seeds as nourishment.
  • Glochidion are of note in the fields of pollination biology and coevolution because they have a specialized mutualism with moths in the genus Epicephala (leafflower moths), in which the moths actively pollinate the flowers—thereby ensuring that the tree may produce viable seeds—but also lay eggs in the flowers' ovaries, where their larvae consume a subset of the developing seeds as nourishment.
  • Flowers often have specialized structures that make the nectar accessible only for animals possessing appropriate morphological structures, and there are numerous examples of coevolution between nectarivores and the flowers they pollinate.
  • Co-adaptation and coevolution, although similar in process, are not the same; co-adaptation refers to the interactions between two units, whereas co-evolution refers to their evolutionary history.
  • Mechanical isolation also occurs in plants and this is related to the adaptation and coevolution of each species in the attraction of a certain type of pollinator (where pollination is zoophilic) through a collection of morphophysiological characteristics of the flowers (called pollination syndrome), in such a way that the transport of pollen to other species does not occur.
  • Bennetzen's research interests include plant genome structure/evolution and gene function relationships, transposable element (TE) biology, genetic diversity in under-utilized crops of the developing world, rapid evolution of complex disease resistance loci in plants, recombinational analysis, the coevolution of plant/microbe and plant/parasite interactions, the genetic basis of quality traits in tea and other important crops, and soil/root microbiomics.
  • Biocultural diversity can be quantified using QCUs (quantum co-evolution units), and can be monitored through time to quantify biocultural evolution (a form of coevolution).
  • Studies on ectoparasites, usually obtained during capture, but also obtained from old museum specimens, are valuable for studies on coevolution and zoonoses.
  • Tiny liverworts, lichens and fungi have been found growing on the pronotum and wing case of many Choeradodis mantids; these appear to be opportunistic growths rather than an example of coevolution with the mantids to afford extra camouflage.
  • Among his scientific works, his studies of coevolution of Saxifragaceae, Poaceae, Cyperaceae, Juncaceae and their respective rust fungi stand out.
  • Although similar evidence is missing for mammals, the phylogenetic position of orthohepadnaviruses as a sister clade to avihepadnaviruses suggests a presence of the virus in the amniote ancestor and a subsequent coevolution with both birds and mammals after their divergence (>300M years ago).
  • The Cretaceous Terrestrial Revolution (abbreviated KTR), also known as the Angiosperm Terrestrial Revolution (ATR) by authors who consider it to have lasted into the Palaeogene, describes the intense floral diversification of flowering plants (angiosperms) and the coevolution of pollinating insects, as well as the subsequent faunal radiation of frugivorous, nectarivorous and insectivorous avians, mammals, lissamphibians, squamate reptiles and web-spinning spiders during the Middle to Late Cretaceous, from around 125 Mya to 80 Mya.
  • Model systems for the study of host–parasite coevolution include the nematode Caenorhabditis elegans with the bacterium Bacillus thuringiensis; the crustacean Daphnia and its numerous parasites; and the bacterium Escherichia coli and the mammals (including humans) whose intestines it inhabits.


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